Call Nearest Retransmitter First: Difference between revisions
More actions
page creation Tag: 2017 source edit |
No edit summary Tag: 2017 source edit |
||
| Line 10: | Line 10: | ||
Moreover, the protocol intelligently accounts for Doppler shifting of signals, adjusting for cases when Void Retransmitters are moving at significant relative velocities compared to the sender. By compensating for frequency shifts caused by motion, CNRFv1 maintains accurate path determination even in dynamic, high-speed environments. |
Moreover, the protocol intelligently accounts for Doppler shifting of signals, adjusting for cases when Void Retransmitters are moving at significant relative velocities compared to the sender. By compensating for frequency shifts caused by motion, CNRFv1 maintains accurate path determination even in dynamic, high-speed environments. |
||
When a Retransmitter responds to a "good morning" message and the time delay is measured, the two retransmitters, one could say, "mentally" visualize a virtual line connecting them. This connection is known as a Void Lane—an evolved concept based on the Administrative Distance from old terrestrial routing protocols. Through this mechanism, each Void Retransmitter calculates the most energy-efficient and least-loss path possible to traverse from Point A to Point B. |
|||
However, a significant challenge arises with Void Lanes: the flaw introduced by Relativistic Time Dilation. As retransmitters move at considerable fractions of high speeds relative to each other, the perceived Administrative Distance of a Void Lane can distort, making routing optimization a far more complex and dynamic problem than its terrestrial ancestors ever faced. |
|||
The Routing Table structure itself was also redesigned and extended within the CNRF framework. Every Void Retransmitter maintains a dynamic Routing Table, continuously updating its knowledge of neighboring retransmitters and the Void Lane distances connecting them. Interestingly, the long-exhausted IPv4 address system—once thought obsolete—was granted a "third life," repurposed as a pool of 4 billion unique identifiers for retransmitter interfaces and access ports, allowing for simple and efficient lookup within the vast mesh of Void Lanes. |
|||
Example: |
|||
{{TerminalLook |
|||
|text= |
|||
<span class="TerminalTextRed">C</span> 53c6:8d44:5595:afa0:b3d1:3990:afb9:0cd0/64 [20/0] via 104.12.154.10:56200 |
|||
}} |
|||
Revision as of 08:09, April 26, 2025
This article takes place in the 24 & 26 centuries of Distant Worlds.
Call Nearest Retransmitter First (CNRFv1) emerged as a critical network protocol tailored for the Void Retransmitter infrastructure. Its invention was driven by the need for a new, modernized wireless algorithm capable of determining the shortest path in space, a domain where traditional terrestrial cable-based routing methods were no longer viable. The principle behind CNRFv1 is elegantly simple:
Void Retransmitters continuously emit signals in a 360-degree circular radius around themselves. When Retransmitter A sends a "good morning" message, the CNRF algorithm determines the nearest retransmitter by recording the time delay between the transmission and the reception of a response from Retransmitter B. In essence, it is a sophisticated reuse of classical radar principles adapted for interstellar communication.
Moreover, the protocol intelligently accounts for Doppler shifting of signals, adjusting for cases when Void Retransmitters are moving at significant relative velocities compared to the sender. By compensating for frequency shifts caused by motion, CNRFv1 maintains accurate path determination even in dynamic, high-speed environments.
When a Retransmitter responds to a "good morning" message and the time delay is measured, the two retransmitters, one could say, "mentally" visualize a virtual line connecting them. This connection is known as a Void Lane—an evolved concept based on the Administrative Distance from old terrestrial routing protocols. Through this mechanism, each Void Retransmitter calculates the most energy-efficient and least-loss path possible to traverse from Point A to Point B.
However, a significant challenge arises with Void Lanes: the flaw introduced by Relativistic Time Dilation. As retransmitters move at considerable fractions of high speeds relative to each other, the perceived Administrative Distance of a Void Lane can distort, making routing optimization a far more complex and dynamic problem than its terrestrial ancestors ever faced.
The Routing Table structure itself was also redesigned and extended within the CNRF framework. Every Void Retransmitter maintains a dynamic Routing Table, continuously updating its knowledge of neighboring retransmitters and the Void Lane distances connecting them. Interestingly, the long-exhausted IPv4 address system—once thought obsolete—was granted a "third life," repurposed as a pool of 4 billion unique identifiers for retransmitter interfaces and access ports, allowing for simple and efficient lookup within the vast mesh of Void Lanes.
Example:
C 53c6:8d44:5595:afa0:b3d1:3990:afb9:0cd0/64 [20/0] via 104.12.154.10:56200